The Cohesion UFT series develops the framework defined on the Framework page in formal detail. Papers are grouped by topic. Each title links to its Zenodo record, where the full PDF is available. The textbook listed under Books presents the series as a course, in one notation, with an executed record, a derivation index, an index of open quantities, and a reconciliation of the corpus as its appendices. The method by which the results are produced is stated in the method paper under Foundations and on the Methodology page. The quantities the series has named and not derived are posed as problems, with the terms of submission, under Open problems.

The Law of Causality

Causality is always intact. Cause always precedes effect. No physical process, at any scale, in any regime, reverses this order.

This law is not assumed — it is a consequence of the foundational axiom. Pressure flows from the containing scale to the contained scale, never the reverse. The causal order of the recursion cycle is fixed by the geometry and cannot run backward. The empirical record contains no exception: no causality violation has ever been recorded in any experiment, at any scale.

Books

Two book-length presentations of the framework: a course text, and a popular-level introduction requiring no mathematical background.

  • Cohesion Unified Field Theory: A Course in Computable Mechanics — the textbook; fifth version, November 2026, and the link resolves to the latest version of the record. The fifth version states the vantage principle in full, with light's dispersion relation and the de Broglie relation as its projections, adds tides as the change of the collapse gradient across a body, and carries the fourth version's identification of the recursion unit and reposing of the sixth problem. Twenty-two chapters in four parts: the foundation (the axiom, the three theorems, causality, energy and inertia), the machine (the operator chain, the funneled spring, slip, the binary toggle, structural time), the scale ladder (from the fine-structure constant through matter, gauge structure, measurement, light, gravitation, the galactic scale, cosmology, and the proton), and the applied register (macroscopic systems, computable mechanics, the parameter sheet, information). Appendices carry the executed record, the derivation index, the open quantities, and the corpus reconciliation. Assumes algebra, geometry, and secondary-school physics.
  • Fantastical Physics: How Modern Physics Traded Mechanism for Myth — and the Operator Cycle That Brings It Back — the popular-level introduction, requiring no mathematical background.

Open problems

The series admits a derivation on one rule: a chain from the pressure axiom, through the operator sequence, to a quantity the framework computes, reported at its standing with its residual against measurement and with nothing fitted. The quantities the series has named and has neither derived nor fitted are indexed in Appendix C of the textbook; the paper below poses seven of them in full — what is given with its standing, what is required, the number the chain must return and the measured value it is held against, what moves in the record, what the rule excludes, and where the result is evaluated — and states the terms of submission. A derivation that meets the standard enters the series under its author's name, with its own record, and the quantity moves from open to derived. The problems and the current standing of each are kept on the Open problems page.

Foundations

Papers developing the foundational axiom, the three theorems, and the operator system.

Recursion geometry

Papers developing the funneled-spring geometry and the binary recursion toggle.

Standard Model derivations

Derivations of Standard Model structure, equations, and constants from Cohesion UFT recursion dynamics.

Gravitation and cosmology

Large-scale dynamics: rotation curves, cosmological behavior, and galactic-scale structures.

Applied and macroscopic systems

Applications of recursion dynamics to observable physical systems.

Computing and information

Applications of the framework to computation, information, and bit-carrier physics.